Topology and Parametric Optimization-Based Design Processes for Lightweight Structures
Topology and Parametric Optimization are two of the most implemented material optimization approaches. However, it is not clear in the literature which optimization procedure, or possible combination of them, can lead to the best results based on material reduction and optimization time. In this pap...
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doaj-e411b46ec1d24f54bc5441cf41249d412020-11-25T02:13:45ZengMDPI AGApplied Sciences2076-34172020-06-01104496449610.3390/app10134496Topology and Parametric Optimization-Based Design Processes for Lightweight StructuresEvangelos Tyflopoulos0Martin Steinert1Department of Mechanical and Industrial Engineering, Norwegian University of Science and Technology (NTNU), 7491 Trondheim, NorwayDepartment of Mechanical and Industrial Engineering, Norwegian University of Science and Technology (NTNU), 7491 Trondheim, NorwayTopology and Parametric Optimization are two of the most implemented material optimization approaches. However, it is not clear in the literature which optimization procedure, or possible combination of them, can lead to the best results based on material reduction and optimization time. In this paper, a quantitative comparison of different topology and parametric optimization design processes is conducted using three benchmark examples: A Hollow Plate, an L-Bracket, and a Messerschmitt–Bölkow–Blohm Beam (MBB-Beam). Ten different design processes that were developed in each case study resulted in 30 simulations in total. The design processes were clustered in three main design workflows: The Topology Optimization, the Parametric Optimization, and the Simultaneous Parametric and Topology Optimization. Their results were compared with respect to mass, stress, and time. The Simultaneous Parametric and Topology Optimization approach gave the lightest design solutions without compromising their initial strength but also increased the optimization time. The findings of this paper will help the designers in the pursuit of lightweight structures and will create the basis for the identification of the ideal material optimization procedure.https://www.mdpi.com/2076-3417/10/13/4496topology optimizationparametric optimizationfinite element analysisdesign |
collection |
DOAJ |
language |
English |
format |
Article |
sources |
DOAJ |
author |
Evangelos Tyflopoulos Martin Steinert |
spellingShingle |
Evangelos Tyflopoulos Martin Steinert Topology and Parametric Optimization-Based Design Processes for Lightweight Structures Applied Sciences topology optimization parametric optimization finite element analysis design |
author_facet |
Evangelos Tyflopoulos Martin Steinert |
author_sort |
Evangelos Tyflopoulos |
title |
Topology and Parametric Optimization-Based Design Processes for Lightweight Structures |
title_short |
Topology and Parametric Optimization-Based Design Processes for Lightweight Structures |
title_full |
Topology and Parametric Optimization-Based Design Processes for Lightweight Structures |
title_fullStr |
Topology and Parametric Optimization-Based Design Processes for Lightweight Structures |
title_full_unstemmed |
Topology and Parametric Optimization-Based Design Processes for Lightweight Structures |
title_sort |
topology and parametric optimization-based design processes for lightweight structures |
publisher |
MDPI AG |
series |
Applied Sciences |
issn |
2076-3417 |
publishDate |
2020-06-01 |
description |
Topology and Parametric Optimization are two of the most implemented material optimization approaches. However, it is not clear in the literature which optimization procedure, or possible combination of them, can lead to the best results based on material reduction and optimization time. In this paper, a quantitative comparison of different topology and parametric optimization design processes is conducted using three benchmark examples: A Hollow Plate, an L-Bracket, and a Messerschmitt–Bölkow–Blohm Beam (MBB-Beam). Ten different design processes that were developed in each case study resulted in 30 simulations in total. The design processes were clustered in three main design workflows: The Topology Optimization, the Parametric Optimization, and the Simultaneous Parametric and Topology Optimization. Their results were compared with respect to mass, stress, and time. The Simultaneous Parametric and Topology Optimization approach gave the lightest design solutions without compromising their initial strength but also increased the optimization time. The findings of this paper will help the designers in the pursuit of lightweight structures and will create the basis for the identification of the ideal material optimization procedure. |
topic |
topology optimization parametric optimization finite element analysis design |
url |
https://www.mdpi.com/2076-3417/10/13/4496 |
work_keys_str_mv |
AT evangelostyflopoulos topologyandparametricoptimizationbaseddesignprocessesforlightweightstructures AT martinsteinert topologyandparametricoptimizationbaseddesignprocessesforlightweightstructures |
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